Most of our research lies at the intersection of RNA biology and neurobiology. We use a combination of genetics, genomics, computational, and biochemical approaches to answer questions in these two areas of research.

Alternative splicing regulation: using C. elegans as a pioneering organism

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A localization map of RNA binding proteins at single neuron resolution

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Investigating the evolution and functional consequences of tissue-regulated splice variants

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Probing RNA binding protein mutants for genetic interactions and behavioural phenotypes